ÂÌñÏׯÞ

Published

Scheurer Swiss supports ETH Zürich composite hybrid rocket motor development

Company supports the university focus project with its composite engineering know-how and networking capabilities for the production of a third-generation rocket motor that aims to reach an altitude of 30,000 feet.

Share

ARIS Daedalus project hybrid composite rocket motor.

Daedalus team. All photo credit: ARIS

Scheurer Swiss GmbH (Volketswil, Switzerland), a composite company, reported on July 5 that it has supported the , a concept pursued by six mechanical engineering students from public research university ETH Zürich (Switzerland) to produce a lightweight, third-generation hybrid rocket motor for this year’s ARIS Piccard sounding rocket, a launch vehicle designed to take measurements and perform scientific experiments during its suborbital flight. In addition to providing its high-performance composite engineering expertise, Scheurer Swiss helped network the project team with the appropriate companies.

ARIS is a multi-project organization founded in 2017 by students at ETH Zürich to promote spaceflight in Switzerland. Together, budding engineers, scientists and economists have since been developing systems for aerospace with the goal of advancing humanity. The Daedalus project, specifically, aims to use a hybrid rocket motor — which combines a solid fuel with a liquid oxidizer, preventing unintentional ignition — to reach an altitude of 30,000 feet (about 9,150 meters) and win the 2021 Spaceport America Cup in New Mexico, said to be the largest academic rocket engineering competition in the world. The team also expects to compete at EuRoc, said to be the first university rocket launch competition in Europe.

The project kicked off in September 2020, and after the concept and design phase, which is said was supported by valuable input from industry and research experts, the final design of the hybrid rocket motor was in place by December 2020. According to the team, the major challenge of the project has been the integration of the engine into the Piccard rocket, which placed stringent requirements for the engine design. For this reason, the six-member project team worked closely with experts in lightweight construction. To achieve their ambitious goals, Scheurer Swiss, with its many years of experience in composites, was felt to be ideally suited for collaboration. 

After an extensive two-month test campaign, during which the performance of the engine in the rocket was tested, the ETH Zürich team reports that its hybrid rocket engine has successfully completed static field testing and is ready for the first hybrid flight.

Daedalus team at ETH Zurich.

Daedalus team: Julian Frei (top left); Leona Gui (top middle); Severin Meyer (top right); Alex Brandes (bottom left); Adrian Fuhrer (bottom middle); and Aaron Ehrat.

“The course of the entire test campaign was successful and the data collected shows that we are ready for the flight of our engine in the rocket,” says Adrian Fuhrer, hybrid rocket engineer. “The great support that Scheurer Swiss provided us, especially at the beginning of the project, in the field of composite engineering and the networking with other competent partners for lightweight construction and fiber composite technology, was very valuable for us and made the project possible in the first place.”

According to Scheurer Swiss CEO, Dominik Scheurer, the Daedalus project exemplifies how highly efficient technical systems with great potential for success can be developed with the use of fiber-reinforced composite materials and lightweight construction technologies. “We congratulate the Daedalus team on the successful test series and are pleased that we were able to support the team with our engineering expertise and network it with our partner companies in a target-oriented manner,” Scheurer says.

The hybrid rocket motor is expected to perform its first maiden flight in July.

Related Content

Space

Carbon fiber satellite arm reduces weight, simplifies assembly onto naval vessels

Satcom developer EM Solutions partnered with ACS Australia to replace an aluminum arm design with a 65% lighter, one-piece, corrosion-resistant carbon fiber/epoxy alternative.

Read More
Carbon Fibers

Design for manufacturing, assembly and automation enables complex CFRP telescope supports

Airborne delivered two mirror support structures for the FYST and SOLAT telescopes, assembling 26,300 components while maintaining near-zero CTE, strict tolerances on 6.5 × 6.5 × 1.8-meter assemblies.  

Read More
Trends

New GTL breakthrough in composite tubing for liquid hydrogen in aircraft and space vehicles

Tests versus stainless steel tubing show 10 times faster chill down, fuel flow in 2 seconds and less boil-off for significantly faster fueling and refueling of LH2-powered space vehicles, aircraft and trucks.

Read More
Prepregs

Composites end markets: New space (2025)

Composite materials — with their unmatched strength-to-weight ratio, durability in extreme environments and design versatility — are at the heart of innovations in satellites, propulsion systems and lunar exploration vehicles, propelling the space economy toward a $1.8 trillion future.

Read More

Read Next

Sustainability

Autonomous agricultural robot supported by composite components

3D-printed carbon fiber-filled composite components enable a robotic weeding system prototype intended to replace use of chemical herbicides.

Read More
Carbon Fibers

All-recycled, needle-punched nonwoven CFRP slashes carbon footprint of Formula 2 seat

Dallara and Tenowo collaborate to produce a race-ready Formula 2 seat using recycled carbon fiber, reducing CO2 emissions by 97.5% compared to virgin materials.

Read More
Sustainability

Plant tour: Daher Shap’in TechCenter and composites production plant, Saint-Aignan-de-Grandlieu, France

Co-located R&D and production advance OOA thermosets, thermoplastics, welding, recycling and digital technologies for faster processing and certification of lighter, more sustainable composites.

Read More